Marjolein van der Meulen, Ph.D.

Research Summary: Dr. Allen’s research seeks to improve the evaluation of preclinical osteoarthritis models and improve the preclinical-to-clinical translation of emerging diagnostics and therapeutics for joint diseases. Within this goal, Dr. Allen’s lab is currently developing new behavioral assays that… Read More
Research Summary Dr. Murfee’s research is focused on making scientific discoveries and developing new bioengineering approaches for connecting tissue level function to integrated cellular dynamics. Specifically, his laboratory applies in vivo, in vitro, and computational approaches to investigate the vascular… Read More
Research Summary: Dr. Ferris’ research focuses on the biomechanics and neural control of human locomotion. Most of his research focuses on human-machine interactions (mechanically and electrically). Projects include both technology development and basic research using mobile brain imaging, robotic lower… Read More
Research Summary: Dr. Keselowsky’s research focuses on engineering biomaterial cell interactions, and targeted controlled release of immune modulating factors to direct immune cell function. Biomaterials undergo complex interactions with cells of the immune system upon implantation. These interactions are incompletely… Read More
Research Summary: Dr. Sharma’s research program investigates fundamental material-cell interactions at multiple length scales to guide the development of targeted drug and cell delivery systems for applications in both regenerative medicine and cancer. At this intersection lies the dysfunctional inflammatory… Read More
Dr. van Oostrom earned his M.S., and Ph.D. degrees in Electrical Engineering from the Eindhoven University of Technology in the Netherlands. Starting in 1998 he helped build the UF BME graduate program and served as the graduate coordinator for 7… Read More
Research Summary: Dr. Wheeler’s research interests lie in the application of electrical engineering methodologies to neuroscience. His work influenced the development of neural spike sorting technologies, demonstrated that microelectrode array recording from brain slices was possible and productive, and has… Read More
Characterizing the structure and property relationships of biological tissues for implementation into physics-based constitutive models. Studying injury mechanics and damage mechanisms associated with high impact loads. Specific expertise includes biomechanics, tissue and bone mechanics, bio-inspired materials research, orthopedics research and… Read More
Research Summary: Dr. Hudalla’s research creates functional biomaterials for therapeutic or diagnostic applications via molecular self-assembly. The Hudalla laboratory develops synthetic peptides that can assemble into a desired nano-scale architecture, and then uses these peptides as “tags” to organize biologically… Read More